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Fall detection using features extracted from skeletal joints and SVM: Preliminary results

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Abstract

In this work we are interested in detecting fall from a non-fall event by means of visual information. A non-fall event can be an activity of daily living (ADL) such as when a person is sitting, walking, lying on the floor, picking up an object. We propose a fall detection system based on a set of visual features, which captures the following information: whether the person is in balance, is close to the ground, the dispersion of joint heights and their change in a time window. The feature set is computed from the joint data provided by the Kinect. The sequences performed by the odd subjects from the TST Fall detection v2 dataset are used to generate the classifier, which is a support vector machine (SVM). This database provides the position of the skeletal joints for actions such as ADL and 4 types of falls. Subsequently, the proposed system is validated with the sequences executed by the even subjects from the TST v2 fall detection dataset and the other two publicly available 3D action datasets. The obtained recognition accuracy is respectively 89.5%, 97.2% and 96%. The experimental results show that the captured features are useful to detect the fall in datasets that are first seen by the classifier.

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Correspondence to Carolina Maldonado-Mendez.

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The authors, Carolina Maldonado-Mendez, Sergio Hernandez-Mendez, Delia Torres-Muñoz and Carlos Hernandez-Mejia, declare that they have no conflict of interest.

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Maldonado-Mendez, C., Hernandez-Mendez, S., Torres-Muñoz, D. et al. Fall detection using features extracted from skeletal joints and SVM: Preliminary results. Multimed Tools Appl 81, 27657–27681 (2022). https://doi.org/10.1007/s11042-022-12405-1

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